Asymmetric information handling system user interface management

ABSTRACT

A portable information handling system selectively attaches and detaches housing portions that each include a display for presenting information as visual images. The housing portions align in an attached state to present visual images at each display aligned with each other. Upon detachment, housing portion alignment is compared with each other to present each user interface aligned in a coordinated fashion at the displays by compensating for misalignment of the housing portions.

CROSS REFERENCE TO RELATED APPLICATION

U.S. patent application Ser. No. ______, entitled “Portable InformationHandling System User Interface Selection Based on KeyboardConfiguration” by inventors Jung Hwan Hong and Deeder Aurongzeb,Attorney Docket No. DC-113334.01, filed on even date herewith, describesexemplary methods and systems and is incorporated by reference in itsentirety.

U.S. patent application Ser. No. ______, entitled “Information HandlingSystem See Do User Interface Management” by inventors, Jung Hwan Hongand Deeder Aurongzeb, Attorney Docket No. DC-113335.01, filed on evendate herewith, describes exemplary methods and systems and isincorporated by reference in its entirety.

U.S. patent application Ser. No. ______, entitled “Portable InformationHandling System to All-In-One Transformation” by inventors Jung HwanHong and Deeder Aurongzeb, Attorney Docket No. DC-113336.01, filed oneven date herewith, describes exemplary methods and systems and isincorporated by reference in its entirety.

BACKGROUND OF THE INVENTION Field of the Invention

The present invention relates in general to the field of portableinformation handling system user interface presentation, and moreparticularly to asymmetric information handling system user interfacemanagement.

Description of the Related Art

As the value and use of information continues to increase, individualsand businesses seek additional ways to process and store information.One option available to users is information handling systems. Aninformation handling system generally processes, compiles, stores,and/or communicates information or data for business, personal, or otherpurposes thereby allowing users to take advantage of the value of theinformation. Because technology and information handling needs andrequirements vary between different users or applications, informationhandling systems may also vary regarding what information is handled,how the information is handled, how much information is processed,stored, or communicated, and how quickly and efficiently the informationmay be processed, stored, or communicated. The variations in informationhandling systems allow for information handling systems to be general orconfigured for a specific user or specific use such as financialtransaction processing, airline reservations, enterprise data storage,or global communications. In addition, information handling systems mayinclude a variety of hardware and software components that may beconfigured to process, store, and communicate information and mayinclude one or more computer systems, data storage systems, andnetworking systems.

Portable information handling systems process information withcomponents disposed in one or more housings. A tablet informationhandling system generally has a planar housing that contains processingcomponents disposed under a flat panel display. Convertible informationhandling systems generally have two rotationally-coupled housingportions with one housing portion containing a display and the othercontaining the processing components covered by a keyboard. The keyboardoffers an end user with a convenient input device to type inputs toapplications through user interfaces. Generally, convertible informationhandling systems rotate to a clamshell position to expose the display inan elevated position above the keyboard so that an end user can typeinputs to the keyboard while viewing the display. Some convertibleinformation handling systems support 360 degrees of rotation of thedisplay so that a touchscreen of the display can act as a tablet withthe keyboard hidden below the system bottom surface.

Over time, portable information handling systems have evolved to havethin housing structures with reduced weight. Generally an end userselects a system with a width and length sufficient to contain a displayof desired size. Reduced system height effectively became the only wayto reduce system size for a give display size. Another way to diminishsystem size is to replace the keyboard at the upper surface of the basehousing with a display. Having a display in the system base still allowstyped inputs by presenting a virtual keyboard at the display thataccepts typed inputs through a touchscreen.

Placing a display over both rotationally coupled housing portionsincreases the display area in flat rotational orientation, however,typed inputs at a display touchscreen tend to be less efficient as nophysical feedback is provided to an end user. One option is to place thekeyboard in a different location for access when typing is needed andout of the way when a display area is needed. Hiding a keyboard tends toconfuse end users since the display portions may each act as a displayarea or virtual keyboard presentation. An end user faces increasedcomplexity when rotating housing portions to different configurationsdue to the different types of user interfaces that may be used at aninformation handling system.

SUMMARY OF THE INVENTION

Therefore, a need has arisen for a system and method which adapts userinterfaces across multiple display surfaces of multiple display portionsbased on user intent derived from sensed content.

In accordance with the present invention, a system and method areprovided which substantially reduce the disadvantages and problemsassociated with previous methods and systems for presenting content atuser interfaces. A user interface manager executing on an informationhandling system applies sensed context to adapt user interfacespresented at different housing portions having different displayportions to interact with an end user based on end user intent.

More specifically, a portable information handling system processesinformation with components disposed in housing portions that arerotationally coupled to each other by a hinge. Plural sensors associatedwith each of the housing portions senses a context related to thehousing portions that a user interface manager applies to adaptpresentation of user interfaces at the display portions. Sensors mayinclude accelerometers, magnetometers, cameras, gaze trackers, Hallsensors, etc. . . . that measure relative orientation of each housingportion to an end user and to each other. In one embodiment, a physicalkeyboard having physical keys transitions between hidden and exposedpositions to accept end user inputs. Accelerations detected at thekeyboard and housing portion are compared and resolved to detect aseparation vector that indicates movement of the keyboard between hiddenand exposed positions. The keyboard relative position is confirmed withother sensors, such as a Hall sensor that detects relative position of amagnet in the keyboard or an ambient light sensor that detects areduction in ambient light as a display portion is flipped to expose akeyboard on an opposing side. The user interface manager selects userinterfaces to present from a user interface queue that associates sensedcontext and available applications to user interfaces. As housingportions and keyboards reconfigure in orientation, attach and detach,the user interface manager applies sensed context to create a userinterface environment from plural housing portions that interact asbuilding blocks to achieve an end user intent, including collaborativeuser interaction experiences.

The present invention provides a number of important technicaladvantages. One example of an important technical advantage is that aportable information handling system adapts user interface presentationat separate display portions to meet end user intent. Sensed context isapplied to adjust user interfaces presented in a collaborative waybetween housing portions that each have a display portion. Housingportions change their relative orientation both by rotating about ahinge that couples the housing portions together and selectivelydetaching and attaching to the hinge. The effect is to have a changingdisplay surface based upon the relative rotational orientation of thehousing portions so that an end user can quickly transition between aclamshell mode associated with a folded housing orientation and a tabletmode associated with a flat housing orientation. Each housing portionessentially provides a flexible building block that enhances end userinteraction needs based on end user input intent. A keyboard thataccepts typed inputs couples to a housing portion to transition betweenexposed and hidden positions as desired by the end user. The sensedcontext includes accelerations sensed at the keyboard and housingportions that indicate an end user intent to interact through selecteduser interface configurations.

A “see” “do” ecosystem is created by context driven allocation of userinterfaces between separate but collaborative display portions. Rapidtransition between one or multi-user configurations is provided byeither separating the housing portions to assign display portions toseparate users or having multiple users interact with different displayportions in a flat configuration. As an end user manipulates housingportions to different relative orientations, user interfacesautomatically allocate to different display portions based upon eachuser's see or do association. For instance, placing a portable system tohave one housing portion in a horizontal orientation and the otherportion in a vertical orientation assigns an application user interfaceassociated with stylus inputs to the horizontal portion while visuallyconsumed information is placed on the vertical portions, such as a filelist. Rotation of both portions to a flat orientation extends the stylususer interface across both display portions to provide the end user witha larger working area. Detection of multiple stylus devices indicatesmultiple end users and provides multiple user interfaces to provideseparate but collaborative work space.

BRIEF DESCRIPTION OF THE DRAWINGS

The present invention may be better understood, and its numerousobjects, features and advantages made apparent to those skilled in theart by referencing the accompanying drawings. The use of the samereference number throughout the several figures designates a like orsimilar element.

FIG. 1 depicts an exploded view of a portable information handlingsystem having dual display portions and a sliding keyboard assembly;

FIG. 2 depicts an exploded view of a portable information handlingsystem having plural display portions assembled as modular units thatattach and detach from each other;

FIG. 3 depicts an example embodiment of a portable information handlingsystem having a detach and flip keyboard configuration;

FIG. 4 depicts an example embodiment of a portable information handlingsystem having a keyboard that slides between hidden and exposedpositions;

FIG. 5 depicts an example embodiment of a portable information handlingsystem having a keyboard that rotates between hidden and exposedpositions;

FIG. 6 depicts an example embodiment of a portable information handlingsystem having three rotationally coupled housing portions and displayportions that selectively configure to an all-in-one form factor;

FIG. 7 depicts an example embodiment of a portable information handlingsystem rotated to a flat configuration having a user interfaceprovisioned based upon the number of end users present at displayportions;

FIG. 8 depicts an example embodiment of a portable information handlingsystem provisioning of a user interface between a clamshell rotationalorientation and detachment into two separate housing portions;

FIG. 9 depicts a block diagram of information handling system componentinteractions to support context sensing and user interface provisioning;

FIG. 10 depicts a flow diagram of a process for detecting a userinterface provisioning trigger at a portable information handlingsystem;

FIG. 11 depicts a flow diagram of a process for selecting see and douser interface scale in a multi-display and multi-user environment;

FIG. 12 depicts a block diagram of logical elements applied to determineprovisioning of user interfaces in single and dual user modes;

FIG. 13 depicts a flow diagram of a process for provisioning userinterfaces based upon detection of housing portion positions; and

FIG. 14 depicts a flow diagram of a process for provisioning userinterfaces based upon housing portion alignment and display portioncontent.

DETAILED DESCRIPTION

Portable information handling systems determine a context from sensedconditions and apply the context to manage user interface presentationat separate display portions. For purposes of this disclosure, aninformation handling system may include any instrumentality or aggregateof instrumentalities operable to compute, classify, process, transmit,receive, retrieve, originate, switch, store, display, manifest, detect,record, reproduce, handle, or utilize any form of information,intelligence, or data for business, scientific, control, or otherpurposes. For example, an information handling system may be a personalcomputer, a network storage device, or any other suitable device and mayvary in size, shape, performance, functionality, and price. Theinformation handling system may include random access memory (RAM), oneor more processing resources such as a central processing unit (CPU) orhardware or software control logic, ROM, and/or other types ofnonvolatile memory. Additional components of the information handlingsystem may include one or more disk drives, one or more network portsfor communicating with external devices as well as various input andoutput (I/O) devices, such as a keyboard, a mouse, and a video display.The information handling system may also include one or more busesoperable to transmit communications between the various hardwarecomponents.

Referring now to FIG. 1, an exploded view depicts a portable informationhandling system 10 having dual display portions 30 and a slidingkeyboard assembly. In the example embodiment, portable informationhandling system 10 has a display housing portion 12 rotationally coupledto a main housing portion 14 by a dual axis hinge 32. A motherboard 16coupled to main housing portion 14 supports components that cooperate toprocess information. In the example embodiment, a central processingunit (CPU) 18 couples to motherboard 16 and executes instructions storedin random access memory (RAM) 20 to process information. For instance, asolid state drive (SSD) 22 provides non-transient memory, such as flashmemory, that stores an operating system and applications for executionon CPU 18. A graphics processing unit (GPU) 24 interfaces with CPU 18and RAM 20 to further process information to defined visual images forpresentation at a display 30. For instance, GPU 24 defines pixel valuesthat illuminate pixels of display 30 with colors to form a visual image.A chipset 26 manages operation of CPU 18, such as by managing clockspeeds, memory accesses and graphic information interfaces. An embeddedcontroller 28 manages physical operations at motherboard 16, such aspower supply and input/output (I/O) device interfaces. I/O devices mayinclude integrated and peripheral keyboards, mouse, touchpad,touchscreen and other devices.

In the example embodiment, visual images defined by GPU 24 are presentedat display portions 30 disposed over each of lid housing portion 12 andmain housing portion 14. For instance, a motherboard 16 connection tothe display portion 30 disposed over main housing portion 14 may scanthe visual image. Lid housing portion 12 may have pixel values providedby GPU 24 communicated through wireless signals of wireless networkinterface cards (WNIC) 34, such as a 60 GHz wireless interface, or acable 38 wire interface. A timing controller 36 receives the pixelvalues to scan to pixels of display portion 30. Display portions 30 actas a single display disposed over separate housing portions 12 and 14 byhaving GPU 24 define pixel values for presentation of visual imagesbased upon information selected for presentation by CPU 18, such as withan operating system driver. In the example embodiment, display portions30 are separate pieces, such as separate LCD flat panels; however, inalternative embodiments a single foldable OLED display film may bedisposed over both housing portions 12 and 14 to fold across hinge 32.

A keyboard 40 couples to a bottom surface of main housing portion 14with a slide support 42 that slides keyboard 40 between a hiddenposition and an exposed position. For instance, the upper surface ofkeyboard 40 has membrane keys that accept typed inputs when keyboard 40slides from underneath main housing portion 14 outward to the exposedposition. When keyboard 40 slides underneath main housing portion 14,the membrane keys are hidden under the main housing portion bottomsurface with the bottom surface of keyboard 40 blending into the bottomsurface of main housing portion 14. As described in greater depth below,in alternative embodiments keyboard 40 may have keys at the bottomsurface of main housing portion 14 in a hidden position so that keyboard40 transitions to an exposed position by detaching the housing portionsat hinge 32 and flipping main housing portion to place keyboard 40 faceup in a clamshell configuration under lid housing portion 12.

Retraction and extension of keyboard 40 between hidden and exposedpositions allows an end user to leverage “see” and “do” functions ofinformation handling system 10. For instance, where an end user's maininteractions are “see” interactions that consume visually presentedinformation, keyboard 40 may be retracted to a hidden position out ofthe end user's way. As the end user seeks to perform “do” tasks thatinvolved keyed inputs, extension of keyboard 40 to an exposed positionprovides keyboard 40 as an input device. One difficulty with having akeyboard 40 that transitions between hidden and exposed positions isthat different user interfaces may optimize an end user experience basedupon whether keyboard 40 is exposed or hidden. Another difficulty isthat an end user may not know the position of keyboard 40 when in thehidden position. For instance, from an end user perspective, displayportions 30 may each act as a base or lid or may be rotated to a flatorientation to act as a single tablet. An end user who picks upinformation handling system 10 with keyboard 40 in the hidden positionmay not know where the keyboard is accessed to transition to an exposedposition.

A number of sensors integrate in information handling system 10 thatprovide a sensed context for orienting an end user to a systemconfiguration and adapting user interfaces presented at display portions30 for see and do functions. In the example embodiment, a gaze tracker46 couples to each of housing portions 12 and 14 to sense an end usergaze relative to each housing portion. For instance, a gaze trackerdetects the different reflections at an end user eye so that eyealignment provides an estimate of end user view alignment relative to ahousing portion. Similarly, estimated end user alignment at each housingportion 12 and 14 provides an estimate of the housing portion alignmentto each other. A camera 48 in each housing portion 12 and 14 captures animage of a viewing area of the display portion 30 at each housingportion to estimate the number of viewers and their orientation toinformation handling system 10. Accelerometers 50 in each housingportion 12 and 14 and in keyboard 40 detect accelerations that helpidentify motions associated with specific system configurations. Forinstance, accelerations detected at keyboard 40 that have an opposingvector to accelerations of main housing portion 14 may indicate movementof keyboard 40 between exposed and hidden positions. As a result ofdetection of such opposing accelerations, information handling system 10may adjust user interface configurations, such as by disambiguation of atouchscreen at a display portion 30 to ignore unintended touch inputs.As another example, display portion 30 over main housing portion 14 maytransition from a do user interface having a virtual keyboard presentedto accept inputs at a touchscreen to a see user interface having thekeyboard removed. Ambient light sensors 52 associated with each displayportion 30 may also be used to adapt user interfaces between see and dofunctions. For instance, if housing portions 12 and 14 are rotated to aclamshell orientation, ambient light on the base portion versus thevertical portion will provide different ambient light sense values,while a flat orientation will have similar values.

As an example, a microcontroller of information handling system 10, suchas embedded controller 28, monitors accelerations at housing portions 12and 14 to detect an acceleration vector that indicates a separation ofthe housing portions and/or keyboard 40. For instance, a perpendicularacceleration vector may be determined to detect keyboard 40 or housingseparation as opposed to rotational motion of housing portions 12 and 14about hinge 32. Actual motion of keyboard 40 may be confirmed with aHall sensor or contact sensor that detects relative movement of keyboard40 and main housing section 14. A more complete context may be definedby applying relative housing portion orientation, gaze orientation, ALSambient light measurements and other factors. Once transition ofkeyboard 40 is confirmed between exposed and hidden positions, anassociated user interface is provisioned to display portions 30. Forinstance, a clamshell configuration with keyboard 40 slid to an exposedposition may result in removal of a virtual keyboard from presentationat main housing portion 14 and replaced with an expanded applicationuser interface at lid housing portion 12 display portion 30 and a touchpad at main housing portion 14 display portion 30. Alternatively, theuser interface of lid housing portion 12 configures with an applicationthat accepts typed inputs, such as a word processor, under theassumption that an end user will want to type inputs to a displayportion having a vertical orientation while the display portion having ahorizontal orientation in the same plane as keyboard 40 accepts touchinputs. As an end user adapts user interfaces at each display portion 30with different keyboard 40 positions, the user interfaces are stored inassociation with a context so that the user interface may be recalledfor presentation when the context is again sensed.

Referring now to FIG. 2, an exploded view depicts a portable informationhandling system 10 having plural display portions 30 assembled asmodular units that attach and detach from each other. In the exampleembodiment, three housing portions rotationally couple to each otherabout magnetic hinges 44 that magnetically couple to each housingportion. The two housing portions 12 and 14 are, essentially,independent tablet information handling systems that include amotherboard 16 and components to independently process information. Whencoupled to each other by magnetic hinges 44, the housing portionsrotationally pivot between closed and flat configurations similar to aconventional portable information handling system. An operating systemand applications executing on a CPU 18 of one of the housing portions 14may define visual images presented at both display portions 30, such asby sending pixel values generated by one GPU 24 for presentation at adisplay portion 30 of the other housing portion 14.

In the example embodiment, a third housing portion 12 includes a displayportion 30 on one side and an integrated keyboard 40 on an oppositeside. Housing portion 12 couples with magnetic hinges 44 to either ofthe other housing portions 14 to provide additional display area forpresenting information as visual images and a keyboard 40 to accepttyped inputs. Selection of additional display area or the keyboard maybe made in a number of different ways. For instance, an end user mayrotate housing portion 12 relative to a housing portion 14 to placekeyboard 40 in an exposed position over top of a display portion 30while the other display portion is raised vertically in a clamshellmode. Alternatively, an end user may detach housing portion 12 fromhousing portion 14, flip housing portion 12 to expose keyboard 40, andthen re-attach housing portion 12 to housing portion 14 so that keyboard40 supports typed inputs to either of two exposed display portions 30.

Modular information handling system portions provide a convenientsolution to end users by adapting display and input resources to see anddo functions with selective attachment and detachment of housingportions 12 and 14. Sensed context at each housing portion 12 and/or 14aids in automated deployment of user interfaces at display portions 30to coordinate end user interactions with information handling system 10in a manner that conforms with end user expectations. As an example, aperpendicular alignment of housing portions 14 with one display portion30 held vertical in a viewing position indicates a see function isappropriate at the vertical display portion 30. A low sensed ambientlight at the horizontal display portion 30 relative to ambient lightsensed at the vertical display portion 30 indicates that housing portion12 has folded about hinges 44 to rest on the horizontal display portion30. If ambient light sensed at housing portions 14 have relativelysimilar values while ambient light sensed at housing portion 12 is low,a flat or clamshell orientation is indicated for the housing portions 12with the keyboard 40 exposed to accept typed inputs. In such aconfiguration, a horizontal display portion 30 may be configured as a douser interface, such as to accept writing by a stencil, while thevertical display portion 30 may be configured as a see user interface,such as presenting a library of figures that a user may select to drawupon. In contrast, if both housing portions 14 lay horizontal in a flatposition, the entire display across both display portions 30 may beconfigured as a single do user interface, such as to accept drawinginputs with a stylus. In an embodiment having three housing portions, anend user may have some difficulty tracking which housing portion has thekeyboard 40. To aid in recognition of the housing portion having thekeyboard, an icon may be presented at the housing portion that has thekeyboard.

Referring now to FIG. 3, an example embodiment of a portable informationhandling system depicts a detach and flip keyboard configuration. An enduser grasps a vertically aligned housing portion 12 and a horizontallyaligned housing portion 14 to pull the housing portions 12 and 14 apartby detaching at magnetic hinges 44. In the original clamshellconfiguration before detachment, the horizontal display portion 30supports a do function, such as a virtual keyboard or writing pad, whilethe vertical display portion supports a see function that, for instance,accepts inputs made at a user interface of the horizontal displayportion. Accelerations monitored at housing portions 12 and 14 may becompared to resolve a separation vector between the housing portions ofgreater than a predetermined amount, which indicates separation of thehousing portions at magnetic hinges 44. In addition, a rotationalacceleration of housing portion 14 to expose keyboard 40 while norotation is detected at housing portion 12 indicates a flip of housingportion 14 to expose keyboard 40 in an exposed position. A detach andflip action may also be detected and/or confirmed by end user grasp andpressure sensing at touchscreen surfaces of display portions 30 as theforce to pull apart magnetic hinges 44 will involve a firm end usergrasp.

In some instances, housing portions 12 and 14 may be detached to act asseparate display portions 30 that continue to cooperate in theirpresentation of content, such as with wireless communication of displaypixel values from a GPU 24 in housing portion 14 through WNICs 34 totiming controller 36 in housing portion 12. When operating as separatedhousing portions, the relative alignment of housing portions 12 and 14are considered for coordination of the display of visual images. As anexample, a variety of sensors sense conditions that define a context fordetermining the type and orientation of visual information presented ateach display portion 30. For instance, if an ambient light sensor at onehousing portion detects little ambient light relative to the otherhousing portion, a user interface transfers to the display portionassociated with relatively high ambient light while the other displayportion goes to idle or off. Alternatively, accelerometers, gyroscopesor magnetometers detect orientation of each housing portion relative togravity and provide the relative orientation to GPU 24, which changespixel output to provide oriented visual images across both displayportions. For instance, a user might have one display portion in alandscape orientation to use as a keyboard while viewing the otherdisplay portion in a portrait orientation to run through a column ofdata on a spreadsheet. In addition to accelerations sensed at eachhousing portion, eye gaze compared between housing portions may alsoprovide relative alignment of the display portions. Although the exampleembodiment is explained as one GPU 24 generating pixels, in analternative embodiment, each display may have its own GPU 24 withorientation managed at an operating system.

Referring now to FIG. 4, an example embodiment of a portable informationhandling system 10 depicts a keyboard 40 that slides between hidden andexposed positions. With keyboard 40 hidden, portable informationhandling system 10 may present a first user interface on displayportions 30 in a clamshell configuration or a second user interface in aflat or tablet configuration. For instance, in a clamshell rotationalorientation, housing portion 14 acts as a base that rests on a supportsurface to hold housing portion 12 in a vertical orientation. Thehorizontal display portion 30 provides a do surface to accept end usertouches, such as at a virtual keyboard or with a stylus, while thevertical display portion 30 provides a see surface that presents outputsfor visual consumption. In one embodiment, automatic user interfaceconfiguration may disambiguate touches differently at a see userinterface than at a do user interface, such as turning off touchdetection, reducing touch sensitivity of limiting touch inputpresentations. In contrast, a change of orientation to a flatconfiguration may convert both display portions 30 to a do surface witha user interface that extends across both display portions, such as toaccept stylus touch inputs. In addition, with keyboard 40 retracted,display portion 30 having keyboard 40 underneath may provide anindication to the end user of the keyboard location, such as with anicon presented at the display portion 30. In one embodiment, sensedcontext is applied to detect or predict an end user's desire to extendkeyboard 40 so that the icon or other indication is provided to aid enduser location of the keyboard location, such as context derived from aHall sensor, magnetometer, accelerations, ambient light and the activeapplication at the system.

Keyboard 40 slides out from under housing portion 14 to adaptinformation handling system 10 to accept typed inputs at keys. A hallsensor 84 detects the relative position of magnet 86 to determine aposition of keyboard 40. In one example embodiment, sensed context atinformation handling system 10, such as an acceleration vector ofkeyboard 40 that indicates opposing motion of keyboard 40 to housingportion 14, initiates a change to user interface disposition uponconfirmation of the keyboard movement by Hall sensor 84. As an example,in a flat orientation with keyboard 40 in the exposed position, a douser interface is placed across display portions 30, such as to acceptstylus inputs. If rotation of housing portion 12 to a verticalorientation is detected, the user interface converts to a see userinterface at the vertical display portion 30 and reduces the size of thedo user interface to the horizontal display portion 30. Should keyboard40 then be slid into the hidden position, the do user interface at thehorizontal display portion 30 may convert to a virtual keyboard toaccept keyed inputs. Over time, user selections of different userinterfaces in different contexts are stored and applied to aid inpresentation of a desired user interface as sensed context changes aredetected.

Referring now to FIG. 5, an example embodiment of a portable informationhandling system 10 depicts a keyboard 40 that rotates between hidden andexposed positions. Keyboard 40 rotates from a hidden position underinformation handling system 10 to rest on top of display portion 30. Inone embodiment, a display portion 30 may be included on an opposite sideof keyboard 40 so that an additional display area may extend outwardfrom housing portion 14 when keyboard 40 rotates only ninety degreesfrom the bottom surface of information handling system 10. As set forthabove, sensed context that resolves keyboard 40 position and user intentautomatically initiates user interface changes as housing portions 12and 14 rotate or separate to have flat or clamshell configurations.

Referring now to FIG. 6, an example embodiment of a portable informationhandling system depicts three rotationally coupled housing portions anddisplay portions that selectively configure to an all-in-one formfactor. In the example embodiment, three display portions 30 and akeyboard 40 may configure to a variety of orientations as describedabove, such as flat and clamshell orientations, each having anassociated user interface configuration. In addition, a kickstanddisposed on the back surface of the central main housing portions 14extends outward to support a vertical orientation of all displayportions 30 in a flat orientation, similar to an all-in-one informationhandling system. A context sensed from multi-structural sensorsprovisions user interfaces, applications and hardware configurations toadapt to an end user's desired interactions. As an example, extension ofkickstand 54 to support display portions 30 in a flat configuration withkeyboard 40 in a hidden position may initiate a do function since touchinputs against the display portions 30 have the support of kickstand 54.In the example embodiment, a hardware function initiated by theall-in-one orientation is a transition in the use of antenna 82 disposedat different locations of the housing portions 12 and 14. To ensureadequate wireless coverage in different types of orientations, antenna82 may be disposed at opposing corners of separate housing portions andthen cooperatively engaged at 2×2 MIMO antenna selected based uponsensed context. For instance, in a clamshell configuration, two antenna82 located along one side of the same housing portion cooperate tocommunicate wireless signals in a MIMO configuration. As informationhandling system converts to a flat orientation having elevation providedby kickstand 54, all four antenna 82 are engaged cooperate in a MIMOconfiguration.

Referring now to FIG. 7, an example embodiment of a portable informationhandling system 10 depicts a flat configuration having a user interfaceprovisioned based upon the number of end users present at displayportions 30. As set forth above, in an environment having a single enduser, end user intent and desires are managed by provisioning userinterfaces based upon a sensed context, such as with accelerometers,gyroscopes, magnetometers, gaze trackers, cameras, ambient lightsensors, touchscreen detection, keyboard location, kickstand deploymentand active applications. In an environment involving two end users, userinterfaces may provision to adapt to intent and desires of the multipleend users. For instance, as described above, in a flat orientation a douser interface provisions to accept stylus inputs. In the event thatmultiple end users are detected, such as by tracking gaze of two sets ofeyes, the single do interface remains in place with all content orientedin one direction. If the orientation of one user is different from theother, detection of separate touches by the end users at separatedisplay portions may divide the display area between the two users. Asan example, if each end user touches different display portions 30 withdifferent stylus 56, a different user interface is provisioned to eachdisplay portion 30 to support each end user. The different userinterfaces may be supported by the same processing components orseparate components. For example, if only one housing portion 14 has aprocessor to execute an operating system and application, separate userinterfaces may be provisioned by generating separate threads on theprocessor that define visual images at each display portion 30. If eachhousing portion has its own processor, then separate user interfaces maybe defined by generating visual images with each processor for eachdisplay portion. Upon transition away from the presence of two users,two stylus or the flat configuration, a single user environment mayagain be implemented with the user interface provisioned as describedabove.

Referring now to FIG. 8, an example embodiment of a portable informationhandling system 10 depicts provisioning of a user interface between aclamshell rotational orientation and detachment into two separatehousing portions. Keyboard 40 location and provisioning in a clamshellorientation may cause end user confusion where a portable informationhandling system has dual display portions 30 exposed and keyboard 40 ina hidden position. In one embodiment, user interfaces are provisioned ondisplay portions 30 to encourage an end user to place the housingportion having keyboard 40 in a base position. For instance, a virtualkeyboard user interface is biased towards presentation at the housingportion that contains the physical keyboard 40. For example, if an enduser has information handling system 10 in a flat configuration and thenrotates the housing portions to a clamshell configuration, a virtualkeyboard is presented on the display portion of the housing portionhaving keyboard 40 in the hidden position so that the end user willnaturally place the keyboard at the horizontal location. If the end userdoes not place the virtual keyboard at the base location or removes thevirtual keyboard, the virtual keyboard might reduce to an icon size atthe housing portion having the keyboard 40 or might shift to the otherhousing portion to accept inputs.

In the example embodiment, applications and user interfaces associatedwith the applications are provisioned to a display portion 30 in avertical orientation relative to a virtual keyboard user interface 58.An active user interface 60 is in focus at the vertically orienteddisplay portion 30 while inactive user interfaces 62 are presented inbackground on both display portions 30. A virtual keyboard userinterface 58 presented at the horizontally oriented display portion 30accepts typed inputs as a do user interface for active applicationwindow 60 presented in a see user interface. Although virtual keyboard58 accepts typed inputs, the lack of feedback at a touchscreen displaycan make inputs more difficult. In response, an end user detaches thehousing portions 12 and 14 and flips housing portion 14 to bringkeyboard 40 to an exposed position. During detachment of the housingportions from each, a separating acceleration vector is detected bycomparing accelerations at each housing portion and, in response, ananimation is initiated at the housing portion 14 having keyboard 40 thatcompresses visual images into an icon at the display portion 30 ofhousing portion 12. By showing the animation at the housing portion thatneeds to be flipped to expose keyboard 40, the end user is provided withan indication of the location of keyboard 40. In the example embodiment,the active window 60 then expands to use the entire display portion areawith an intent implied by the end user action of typing into the seeuser interface. In an alternative embodiment, other user interfaces maybe provisioned based upon previous end user interactions. In the eventthat active window 60 is presented at the housing portion 14 having thekeyboard, the animation may include transfer of the content of theactive window to the opposing display portion 30 while content at theopposing display portion 30 shrinks to an icon 64 at the same displayarea. In one embodiment, the inactive user interface windows are stackedin a queue in order of descending priority so the end user can accessidle user interfaces in a more rapid manner.

Referring now to FIG. 9, a block diagram depicts information handlingsystem component interactions to support context sensing and userinterface provisioning. A hardware layer 66 provides processing andsensing at a physical level. A CPU 18 and RAM 20 execute instructionsthat manage user interface selection and provisioning. In someembodiments, each housing portion has its own CPU 18 and RAM 20 toseparately execute user interface related instructions. A WNIC 34provides communication between housing portions to present informationat separate displays. Where one CPU in one housing portion executesinstructions to generate all visual information, a GPU 24 communicatesdisplay information as pixel values through WNIC 34. Where separate CPUscoordinate presentation of visual information, WNIC 34 providescommunication between the CPUs so that GPUs at each housing portiongenerate visual images from the information. Sensors 72 sense externalcontext as described above. Generally, sensor input is coordinatedthrough various hardware components, such as an embedded controller, andmade available to an operating system for selection of user interfacesto provision.

An operating system layer 68 includes an operating system 74 thatexecutes over CPU 18 and coordinates sensed inputs to determine userinterface provisioning. A user interface manager 76 executes as a modulewithin operating system 74 to apply sensed context to determine whichuser interfaces to provision to which display portion. A user interfacequeue 78 stores available user interfaces for selection by userinterface manager 76. For instance, user interface queue is an orderedlist of user interfaces in priority with each user interface associatedwith context and applications. As a sensed context at an informationhandling system matches conditions for a user interface in the queue 78,user interface manager 76 initiates the user interface presentation atthe appropriate display portion. Applications 80 in an application layer70 may be initiated based upon the user interface selected, such as wordprocessing, spreadsheet, email, web browsing or other applications.

Referring now to FIG. 10, a flow diagram depicts a process for detectinga user interface provisioning trigger at a portable information handlingsystem. In the example embodiment, a user interface provisioning isdetected based upon system accelerations and confirmed with a positionsensor, such as a Hall sensor. In alternative embodiments, accelerationsmay be used to confirm a trigger first detected by another sensor, suchas a Hall sensor. The process starts at step 84 with monitoring ofaccelerations at each housing portion of an information handling system10. If accelerations exceed a threshold, the process continues to step86 to determine if the accelerations resolve to an opposing vector ofgreater than a threshold, such as indicates that housing portions arebeing pulled apart. If the accelerations are too small or indicateaccelerations in a common direction by a contiguous housing, the processreturns to step 84.

Once a housing separation is indicated by sensed accelerations, theprocess continues to step 88 to confirm the housing separation, such asby movement detected at a Hall sensor. In the example embodiment,accelerations with an opposing vector may be sensed at a lid housingportion 12 and a keyboard 40 to detect removal of the keyboard, which isconfirmed by a Hall sensor detection of movement of the keyboardrelative to a main housing portion. In alternative embodiments, aseparation acceleration vector is confirmed by other sensors, such as anambient light sensor that detects placement of a display portion 30 facedown on a surface, such as when a keyboard 40 on the opposing side isplaced up. If at step 88 a separation of housing portions is notconfirmed, the process returns to step 84. Once housing portionseparation is confirmed, the process continues to step 90 to provisionuser interfaces for the housing portion configuration. In a change toexpose a keyboard 40, user interface provision will vary based uponwhether the amount of display area has decreased as the keyboard movesto an exposed position. For instance, with a sliding keyboard, thedisplay area over top of the keyboard becomes a do area that acceptstouch inputs, such as with a stylus. In contrast, a separate and flipaction to expose a keyboard from underneath a display area results inthe display area being hidden. In such a situation, an animation ofdisplay user interfaces to an icon at the remaining display area helpsto remind the end user where the keyboard is located and stacks userinterfaces in a priority order at an icon for the end user to select asneeded. With disposition of the keyboard to accept inputs, the userinterface may select an active window that accepts typed inputs andexpand that active window to the entire area of a display portion havinga vertical alignment to the keyboard. Following the automatic userinterface provisioning, at step 92 any modifications made by an end userto the user interface are stored for use in subsequent user interfaceprovisioning.

Referring now to FIG. 11, a flow diagram depicts a process for selectingsee and do user interface scale in a multi-display and multi-userenvironment. The process starts at step 94 with monitoring ofaccelerations at information handling system portions to detectrotational vectors. The example embodiment compares accelerationsbetween two housing portions to detect accelerations so that relativeorientation of separated housing portions may be tracked, however, inalternative embodiments a rotational orientation sensor at a hinge maybe used to detect rotational orientation of housing portions. If at step96 a change in rotational orientation is detected, the process continuesto step 98 to determine if the change in rotational orientation is froma folded to a flat rotational orientation. For instance, if the housingportions have closed or clamshell configuration after motion stops theprocess continues to step 106 to provision a folded user interface. Invarious embodiments, the folded user interface can take a number ofdifferent forms depending upon whether the housing portions physicallycouple to each other or are separated from each other. For instance, ifthe housing portions are separate from each other, the relativeorientation of the housing portions to each other is compared todetermine an orientation for presenting visual images at each housingportion. Further, see and/or do interfaces may be assigned to eachhousing portion based upon the content and active window of theinformation handling system visual images.

At step 98 if a folded to flat orientation is detected, the processcontinues to step 100 to assign a flat user interface. The flat userinterface may have a horizontal content based upon accelerationsdetected at both housing portions or a vertical content based uponextension of a kickstand in an all-in-one configuration. For instance,in a horizontal flat configuration, a do user interface with inputsaccepted using stylus touches may have priority while, in a verticalflat configuration, a see user interface may have priority, such aswatching a video. Further consideration for user interface selection mayinclude whether the housing portions are coupled as a contiguous unit orseparated from each other as separate units. At step 102, adetermination is made of whether one or two end users are making inputsat the information handling system, such as by determining whether oneor two stylus devices are touching the display portions. If only oneuser is making inputs to the information handling system, the processreturns to step 94 to continue to monitor accelerations that indicatehousing portion re-configuration.

If at step 102 multiple stylus devices are detected, a collaborativeuser interface may be deployed at step 104 to aid interaction bymultiple end users. For example, each display portion of each housingportion may be assigned to one user, such as by generating a separateuser interface of the same “do” stylus application at both displayportions. The separate user interfaces may be supported with separatethreads executing on a shared processor so that a GPU interfaced withthe processor sends visual images to both display portions.Alternatively, a separate CPU in each housing portion may execute the doapplication so that each user has his or her own user interface on whichto collaborate. In the example embodiment, the dual user interfaceconfiguration is established only if a flat orientation exists with twostylus devices detected. In an alternative embodiment, touch by fingersof two users may establish dual user interfaces where the multiple usersare detected by camera or eye gaze analysis. Alternatively, dualseparate user interfaces may be initiated only when separate users aredetected and a separation between the housing portions is detected.

Referring now to FIG. 12, a block diagram depicts logical elementsapplied to determine provisioning of user interfaces in single and dualuser modes. In the example embodiment, user interface logic is tied tofirst and second display portions 30 and a physical keyboard 40 thatselectively transitions between exposed and hidden positions. Userinterface provisioning is managed by associating functions of theinformation handling system with do or see functionality. In the exampleembodiment, do functions perform based upon inputs, such as throughtouch, a stylus or gesture, while see functions do not perform basedupon inputs such as touch, gaze and gesture. In alternative embodimentsother definitions may apply and, in some embodiments, a graduatedfunctionality assessment is associated with functions to definedgraduated usability with a do function towards less functionality atintermediate see-do functions and a consumption only function with apure see function. Each display portion 30 may have multiple functionsassigned including simultaneous assignment of both see and do functions.In the example embodiment, display portion 1 has a see function, such asa web browser to consume visual information, and display portion n hasboth do and see functions. Keyboard 40 provides a do function ofphysical key inputs without presentation of visual images.

A hardware layer 66 detects end user interactions associated with dofunctions at display portions 30. For example, a touch stylus 110interacts with a touchscreen to make inputs at a do user interface.Other sensors include gaze tracking, cameras, touch and pointingdevices, etc. . . . At hardware layer 66, accelerations detectrotational orientation of housing portions to determine if displayportions 30 have a folded or flat orientation. If multiple stylusdevices 110 and a flat rotational orientation 112 are reported tohardware layer 66, a multiple user environment is detected that impliesa use of multiple different do user interfaces so that each end user hashis or her own user interface with which to interact. An applicationlayer 70 applies the sensed conditions to assign see and do userinterfaces to the display portions at a user interface layer 108. Asdescribed above, if a flat orientation is detected along with twoasynchronous touch inputs that indicate two end users, user interfaces108 are divided between two display portions for the two users. In oneembodiment, a second user may instead have a user interface assigned tohim or her at just a part of a display portion 30 so that control of theoverall system interactions may rapidly convert to the original userwith a touch at the display portion 30 having the second user interface.In another embodiment, once separate user interfaces are assigned toeach stylus, the stylus is restricted to only input to its assigned userinterface while inputs at the other user interface are ignored. In yetanother embodiment, only one user is assigned to the user interfaceunless a flat orientation is detected and the keyboard is in a hiddenposition.

Referring now to FIG. 13, a flow diagram depicts a process forprovisioning user interfaces based upon detection of housing portionpositions. The process starts with detection of housing portion positionat application of power to the information handling system at step 114.At step 116 the last user interface for the detected position isprovisioned for presentation at the display portions. Once theinformation handling system powers up, the process continues to step 118to monitor sensed context and adapt user interface provisioning ashousing portion positions and selected functions change. At step 118determination is made of whether the housing portions have assumed a newposition and step 120 determines if a new function has been selected. Ifthe position and function remain unchanged, the process returns to step116 to continue monitoring sensed context. If either the housing portionposition or the function have changed, the process continues to step 122to determine what new user interface should be provisioned, if any.

At step 122, a determination is made of whether a kickstand has extendedfrom a portable housing. If a kickstand has extended, the processcontinues to step 124 to establish an all-in-one configuration. Forexample, upon detection of the extension of the kickstand adetermination is made of the display portions that share a common planesupported by the kickstand and the most recent user interface associatedwith the all-in-one configuration is presented at the shared displayportions. Alternatively, based on other sensed context a user interfaceand associated content is selected for presentation. If at step 122 thekickstand remains retracted, the process continues to step 126 todetermine if a peripheral is attached to the system, such as through awired or wireless interface. In various embodiments, the peripheral mayinclude an external keyboard, mouse, display or other physical devicethat interacts with the information handling system. If a peripheral isdetected, the process continues to step 128 to merge any user interfaceassociated with the peripheral to the user interface currentlypresented. For example, upon detection of a peripheral keyboard a douser interface associated with typed inputs, such as wording processing,adjusts from a horizontal to a vertical position and adapts to acceptinputs from the keyboard instead of a stylus. If instead a peripheraldevice has disconnected at step 130, the user interface that wasassociated with the peripheral device merges at step 132, such as bytransitioning to a do user interface having a vertically aligned displayportion to a horizontally aligned display portion. The process thenreturns to step 116 to continue monitoring for function or positionchanges.

Referring now to FIG. 14, a flow diagram depicts a process forprovisioning user interfaces based upon housing portion alignment anddisplay portion content. The process starts at step 134 with housingportions attached to each other, such as with a hinge, so that attachedsides have a proximate and parallel alignment. At step 136, adetermination is made of whether a misalignment has occurred between thehousing portions, and if not, the process returns to step 134 tocontinue monitoring alignment. A determination of misalignment may bemade with several different sensed conditions. Initially, misalignmentmay be detected by an opposing acceleration vector between two housingportions, such as may be experienced when two housing portions arepulled apart at a detachable magnetic hinge. Other indications mightinclude a different gaze angle from each housing portion relative to anend user, a camera image captured at each housing portion that showsdifferent relative angles to a reference point, such as an end user orbuilding reference landmark, an acceleration or magnetic senseddirection to an Earth reference point that resolves to different anglesat each housing portion, different levels of ambient light sensed ateach housing portion, etc . . . .

If a misalignment exists between the housing portions, a separation ofthe housing portions is indicated with associated impacts on the userinterface selection. For example, although each display portion in eachhousing portion shares information for presentation, a cohesivepresentation between both display portions depends on the spacingbetween the housing portions and the angular relationship from the userto the display portion. At step 138, an analysis is performed of theuser interfaces as presented to determine the percentage of pixelsdedicated to each user interface, including an active window selected bythe end user for interaction and inactive windows. In one embodiment,the user interface having the greatest amount of content across thedisplay portions is presented across all of the display portion thatremains the focus of the end user. Alternatively, an active windowregardless of the relative size of its content is selected forpresentation across all of the display portion that remains the focus ofthe end user. In one embodiment the focus of the end user is assumed toremain at the display portion that lacks a keyboard. In anotherembodiment, the focus of the end user is determined from a determinationof eye gaze at the two displays.

At step 140 the user interfaces are assigned to display portions basedupon priority, such as the percent of display area taken by the contentof each user interface or the end user's selection of an active window.In one embodiment, the active user interface may be presented atseparate display portions, such as may aid with collaboration by twousers. In alternative embodiments, upon separation a separate userinterface may be called for presentation based upon an end user's intentas determined from sensed content. At step 142, the user interface ateach display portion is aligned to the end user's perspective. Forinstance, although physically separated from each other, the displayportions continue to coordinate presentation of visual images as if inan aligned relationship. Thus, as the housing alignment shifts to amisaligned condition, the user interface remains aligned by coordinatingpresentation of visual images relative to each other and/or the enduser. For instance, an end user might separate housing portions from aclamshell configuration, rotate one housing portion to a portrait view,and then use the other housing portion in a landscape view as a keyboardto type inputs to a column of a spreadsheet presented in the portraitview. At step 144, the housing portion relative alignment is checked todetermine if the user interfaces remain misaligned and, if so, theprocess returns to step 142 to continue to adjust the user interfaceorientation relative to the housing portion orientation to present thevisual images at both display portions aligned to each other. If theuser interfaces align at step 144, the process continues to step 146 topresent the user interfaces aligned with the housing portion alignment.For example, alignment of the user interfaces occurs upon reattachmentof the housing portions to each other. Reattachment may be indicated inpart by an acceleration vector resolved between the two housing portionsthat indicate a coupling followed by a bump at physical connection.Granularity in alignment correction is provided by adjusting the scanprovided by the graphics processor to the display portions. As describedabove, pixels values may be generated with a CPU and GPU in one of thehousing portions and wirelessly communicated between the housingportions, or may be generated with a GPU in each housing portion.

Although the present invention has been described in detail, it shouldbe understood that various changes, substitutions and alterations can bemade hereto without departing from the spirit and scope of the inventionas defined by the appended claims.

What is claimed is:
 1. A portable information handling systemcomprising: first and second housing portions; a hinge detachablycoupling the first and second housing portions to rotate between atleast a closed position and a flat position; components disposed in thefirst and second housing portions, the components cooperating to processinformation; a first display disposed over the first housing portion topresent the information as visual images; a second display disposed overthe second housing portion to present the information as visual images;plural sensors that cooperate to detect alignment of the first andsecond housing portions relative to each other; and a user interfacemanager operable to apply the alignment of the first and second housingportions to adapt a user interface orientation at the first and seconddisplays.
 2. The information handling system of claim 1 furthercomprising: a graphics processor integrated in the first housingportion, the graphics processor generating pixel values that definevisual images at the first and second displays; and a wireless interfacebetween the graphics processor and the second display to communicatepixel values from the graphics processor to the second display.
 3. Theinformation handling system of claim 2 wherein the user interfacemanager detects a predetermined off-axis alignment and, in response,commands the graphics processor to generate pixels with a normalalignment at the first display and with a perpendicular alignment at thesecond display.
 4. The information handling system of claim 1 whereinthe plural sensors comprise a first gaze detector integrated with thefirst housing portion and a second gaze detector integrated with thesecond housing portion, the user interface manager determining alignmentfrom a gaze alignment detected at each of the first and second housingportions.
 5. The information handling system of claim 1 wherein theplural sensors comprise a first accelerometer integrated with the firsthousing portion and a second accelerometer integrated in the secondhousing portion, the user interface manager determining alignment bycomparing gravity detection alignment of the first and secondaccelerometers.
 6. The information handling system of claim 1 whereinthe plural sensors comprise a first ambient light sensor integrated inthe first housing portion and a second ambient light sensor integratedin the second housing portion, the user interface manager determiningalignment by comparing ambient light brightness of the first and secondambient light sensors.
 7. The information handling system of claim 6wherein the user interface manager transitions information presented atthe second display to the first display if the second ambient lightsensor senses a predetermined ambient light relative to the firstambient light sensor.
 8. The information handling system of claim 1wherein the user interface manager is further operable to: in responseto detecting a misalignment of the first and second housing portions,analyze the amount of display area used by each set of plural contents;and present at the first display portion only the content having thegreatest amount of display area.
 9. The information handling system ofclaim 1 wherein the user interface manager is further operable to: inresponse to detecting a misalignment of the first and second housingportions, analyze the amount of display area used by each set of pluralcontents to determine the display portion having the content with thegreatest display area; and present an active content of the pluralcontents at the display portion having the content with the greatestdisplay area.
 10. A method for presenting visual images at aninformation handling system, the method comprising: sensing alignmentbetween first and second housing portions of the information handlingsystem; determining from the sensed alignment a predeterminedmisalignment between the first and second housing portions; andadjusting a user interface alignment presented at a first displayportion of the first housing portion and a user interface alignmentpresented at a second display portion of the second housing portion tocompensate for misalignment of the first and second housing portions.11. The method of claim 10 wherein sensing alignment further comprises:sensing an eye gaze at the first housing portion; sensing an eye gaze atthe second housing portion; and comparing the eye gaze sensed at thefirst housing portion with the eye gaze at the second housing portion todetermine alignment of the first housing portion relative to the secondhousing portion.
 12. The method of claim 11 further comprising:presenting the user interface at the first display portion in alandscape orientation; and presenting the user interface at the seconddisplay portion in a portrait orientation.
 13. The method of claim 10wherein sensing alignment further comprises: detecting opposingacceleration vectors at the first and second housing portions; anddetermining from the opposing acceleration vectors that the first andsecond housing portions transitioned from an attached state to adetached state.
 14. The method of claim 13 wherein the user interfacehas content including one active window and one or more inactivewindows, the method further comprising: presenting the content of theone active window at only the first display portion; and presenting thecontent of the one or more inactive windows at only the second displayportion.
 15. The method of claim 13 wherein the user interface includescontent and a keyboard, the method further comprising: comparing visualimages presented at the first display portion and the second displayportion to determine which display portion has a greater proportion ofthe content; and in response to the comparing, moving all of the contentto the display portion having the greater proportion of the content. 16.The method of claim 13 further comprising: detecting re-attachment ofthe housing portions to an attached state; and in response to detectingre-attachment, adjusting the user interfaces to align with each other.17. A system for presenting visual images at an information handlingsystem, the system comprising: a first sensor disposed at a firsthousing portion to detect a first housing alignment; a second sensordisposed at a second housing portion to detect a second housingalignment; non-transitory memory to store instructions; and instructionsstored in the non-transitory memory that execute on a processor to:compare the first housing alignment and second housing alignment; detectmisalignment of the first housing from the second housing by apredetermined amount; and in response to detecting misalignment,adjusting a user interface presented at a first display disposed in thefirst housing portion to align with a user interface presented at asecond display disposed in the second housing portion.
 18. The system ofclaim 17 wherein: the first sensor comprises a first eye gaze detector;and the second sensor comprises a second eye gaze detector.
 19. Thesystem of claim 17 wherein: the first display user interface presents ina landscape orientation; and the second display user interface presentsin a portrait orientation.
 20. The system of claim 19 wherein theinstructions further execute to detect misalignment by detecting anopposing acceleration vector at the first and second housing portionsindicating a detachment of the housing portions from each other.